Blog

Growing Greener: The Role of University Research & Demonstration Farms in Energy and Climate Policy

Agriculture

University research and demonstration farms go hand-in-hand to support innovations in regenerative agriculture and energy policy. Together, they drive innovation, bridge gaps in knowledge, and foster collaboration across sectors.

Agriculture remains one of the most climate-sensitive yet anthropogenic activities on the planet today. While conventional industrial-scale agricultural practices contribute to climate change through greenhouse gas emissions from animals, fertilizers, and land use, all farming operations are vulnerable to climate impacts such as drought, extreme heat, and flooding.

Thus, there is a growing call for adaptive, sustainable solutions that prioritize environmental stewardship without compromising food security. The 2023 United Nations Framework Convention on Climate Change (UNFCCC) global climate meeting (COP28) marked a pivotal moment as more than 150 countries recognized a critical role for sustainable agriculture in addressing climate change. Building on this momentum, this year’s COP29 reaffirmed the importance of conserving, protecting, and restoring nature.

The Promise of Regenerative Agriculture

Regenerative agriculture and agroecology emerge as important tools, embracing practices that bolster biodiversity, reduce the pollution load from synthetic inputs, protect animals from climate impacts, and preserve and enhance soil health. They aim to help curb greenhouse gas emissions, make resilient food systems, and emphasize the centrality of farming communities as thriving places. Central to this paradigm shift is a focus on improving soil health, including the potential to sequester atmospheric carbon and help mitigate ongoing warming trends.

Integration with Energy Policy

Beyond environmental benefits, regenerative agriculture aligns with energy policy goals. Local food networks reduce energy consumption needed to transport agricultural goods and offer synergies that can accelerate the transition towards renewable energy sources. Local food production geographically diversifies supply chains, building resilience and assuring the sovereignty of our food supply.

Practices such as bioenergy production from agricultural waste and on-farm renewable energy utilization complement broader energy transition objectives, fostering reduced emissions and rural economic development. Upcycling food waste to livestock reduces land use and deposition of organic matter in landfills, reducing non-enteric greenhouse gas production.

Challenges of Implementation

Realizing the benefits of regenerative agriculture necessitates widespread adoption by farmers and land managers. This challenge is compounded by barriers such as limited financial incentives, increased risks, knowledge gaps, and limited resources in rural communities—such as housing, workforce, and market access.

Bridging this divide requires innovative approaches that integrate regenerative agricultural practices into existing energy policy frameworks, overcoming obstacles like technological barriers and policy fragmentation.

The Role of Demonstration Farms

Demonstration farms emerge as pivotal catalysts in unlocking the potential of regenerative agriculture. These farms foster collaboration among farmers, animal and climate scientists, veterinarians, and policymakers. They also serve as living laboratories for testing new ideas and driving innovation. They are a key step in scaling up climate-smart practices by applying new technologies.  

Drawing from History and Global Initiatives

Demonstration and research farms are not new to the U.S. agriculture landscape. They date back to the early 20th century. Drawing from historical efforts to disseminate agricultural knowledge, as well as successful initiatives like Farmer Field Schools (FFS) in the Global South.

Several countries offer promising examples of integrating agriculture and energy policies. Germany and Denmark demonstrate successful implementation of policies promoting bioenergy production from agricultural residues in countries. In the United States, the Farm Energy IQ program, leads education efforts.

Similarly, examples such as the Great Lakes University of Kisumu (GLUK) in Kenya works to empower local farmers in combatting soil degradation and food insecurity. Closer to home, the New Bolton Center at the University of Pennsylvania is leveraging agroforestry practices to protect stream health and improve soil quality.

Policy Support and Financial Incentives

Policy support, education, financial incentives, and resources are essential drivers for the transition and/or adoption of sustainable agricultural practices. However, challenges persist, including the need for long-term research into the benefits and off-target effects of “climate-smart paradigms,” equitable funding distribution, marketing and trade barriers, education of stakeholders, and localized policy barriers.

Moving Forward: A Call for Integration

As practices of regenerative and more sustainable agriculture gain momentum, collaboration across sectors, including farmers, and local and indigenous voices, is paramount. Leveraging the expertise of universities, research institutions, public-private partnerships, and demonstration farms, while integrating sustainable agriculture into forward-thinking energy policy frameworks, offers a pathway towards transformative change.

Thabo Lenneiye

Managing Director, Goldsmith Sustainable Agriculture Fund

Thabo Lenneiye is the managing director of the Sustainable Agriculture Fund. She’s responsible for operationalizing the fund, launching initiatives focused on sustainable agriculture, and framing a research agenda that intersects with energy policy.

Thomas Parsons

Director, Center for Stewardship Agriculture and Food

Thomas Parsons is the Marie A. Moore Professor of Animal Welfare and Ethics at the School of Veterinary Medicine, New Bolton Center. He directs the Center for Stewardship Agriculture and Food at PennVet.